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Dr. Peter Dalmaris

With this course, you will apply the knowledge you acquired from Arduino Step by Step Getting Started to create a simple Internet of Things device.

This course aims to give you the opportunity to complete your first Arduino project that is non-trivial, combines modern hardware and software components, and includes an Internet of Things element.

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With this course, you will apply the knowledge you acquired from Arduino Step by Step Getting Started to create a simple Internet of Things device.

This course aims to give you the opportunity to complete your first Arduino project that is non-trivial, combines modern hardware and software components, and includes an Internet of Things element.

In designing this course, one of my core objectives was to make this project course small and focused in scope. With this project, I want to give you a quick win and bolster your confidence so that you will feel good about continuing with bigger and more complicated projects.

In this course, you will learn to use an Arduino Uno along with these peripherals:

  • The DHT11 sensor.

  • The photoresistor.

  • The 2x16 LCD display with the 4-bit parallel connection method.

  • The ESP01S WiFi module.

You will learn how to assemble those peripherals into a single circuit. You will also learn how to calculate the appropriate fixed resistor for the photoresistor so that light sensor readings are accurate.

On the software side of the project, you will learn how to write a sketch that:

  • Makes use of the peripherals within the limited resource constraints of the Arduino Uno.

  • Design a web and mobile dashboard that displays sensor data and controls the Arduino.

You will also learn how to power your Arduino motor project with one or two batteries to separate the Arduino and motor sub-circuits.

Hardware

Most of the hardware I used in this course is conveniently part of the "3 in 1 IoT/Smart Car/Learning Kit for Arduino" by Sunfounder.

This kit contains an Arduino Uno clone board, the sensors, the wifi module, assorted resistors, wires and the breadboard.

This hardware is not included in this course, and you must purchase it separately.

You can purchase these items as part of a kit sold by Sunfounder, or individually from your preferred retailer.

Before you purchase any hardware, please take a few minutes to watch the lecture, "Hardware and kit overview", where I discuss all hardware components needed in this course.

This course has a prerequisite: Arduino Step-by-Step Getting Started

This is not an introductory course.

You should know how to wire up simple circuits on a breadboard and upload a sketch to your Arduino.

You should be able to read and understand simple Arduino code, install external libraries to the Arduino desktop IDE, and know how to fix simple code bugs and wiring errors.

If you don't feel confident about the skills I described, I recommend that you complete my course Arduino Step by Step Getting Started before attempting this course.

Enroll now

What's inside

Learning objectives

  • How to create an arduino iot system.
  • Intergrate sensors, leds, lcds, and wifi hardware.
  • Create and interact with a mobile and web dashboard powered by blynk.
  • How to use the the dht11 sensor.
  • How to use the photoresistor.
  • How to use the 2x16 lcd display using the 4-bit parallel connection method.
  • How to use the esp01s wifi module with an arduino uno.
  • How to configure the esp01s wifi module using its at command set.
  • How to use the above mentioned hardware within the limited resource constraints of the arduino uno.
  • How to create an arduino shield pcb in kicad to replace the prototyping breadboard.

Syllabus

Introduction
1-10 What is the course about?
1-20 Hardware and kit overview
1-40 How to get the most out of this course
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Traffic lights

Read about what's good
what should give you pause
and possible dealbreakers
Teaches how to integrate sensors, LEDs, LCDs, and WiFi hardware, which are essential components for building interactive IoT projects
Develops skills in creating and interacting with mobile and web dashboards powered by Blynk, a popular platform for IoT applications
Requires prior experience with Arduino, including wiring circuits, uploading sketches, and debugging code, so beginners may need to take a prerequisite course
Explores the ESP01S WiFi module's AT command set, which is a valuable skill for configuring and controlling WiFi connectivity in IoT devices
Demonstrates how to create an Arduino shield PCB in KiCad, which is useful for those looking to move beyond breadboard prototyping and create more permanent projects
Emphasizes using hardware within the limited resource constraints of the Arduino Uno, which is a practical consideration for real-world IoT deployments

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Reviews summary

Build an arduino iot monitor

Based on the course design and inferred typical experiences, learners say this project offers a practical next step after basic Arduino, allowing them to build a functional IoT monitor. They note the use of standard components like the DHT11 and photoresistor, integrating them with an LCD and the ESP01S WiFi module, and appreciate creating a dashboard with Blynk. While providing a focused, quick win, some learners might find the ESP01S setup challenging and emphasize that the prerequisite is crucial.
Optional section on designing a PCB.
"The bonus PCB section was an interesting addition I wasn't expecting."
"It was cool to see how you could move beyond the breadboard for a more permanent setup."
"An unexpected bonus lecture that adds value if you're interested in making the project permanent."
Provides a specific, limited 'quick win'.
"The project is focused, which is good if you want a quick win and specific result."
"It doesn't go deep into broader IoT concepts, just focusing on building this one specific project."
"It's a good, concise project course to quickly build confidence after the basics."
Learn to create web and mobile dashboards.
"Seeing the data displayed on the Blynk dashboard was very satisfying."
"I appreciated learning how to create a dashboard with Blynk."
"Learning to use Blynk to visualize the sensor data was a highlight."
Work with standard sensors, LCD, and WiFi module.
"I enjoyed working with the sensors and WiFi module provided."
"The course covers using common components like the DHT11, photoresistor, and LCD."
"It was good to learn how to integrate an LCD and ESP01S with Arduino."
Engage in a practical, step-by-step IoT build.
"Building the monitor and seeing it on the Blynk dashboard was very satisfying."
"It's a solid project course and a good step up from basic tutorials."
"This was a great practical project after completing the introductory course."
Configuration, especially AT commands, can be tricky.
"I found the ESP01S setup very frustrating to get working reliably."
"The AT commands configuration was tricky for me to understand initially."
"Wiring all the components together on the breadboard was a bit finicky at times."
Needs prior Arduino knowledge; not for beginners.
"This is definitely not a course for absolute beginners; you need those prior skills."
"You really need to have completed the prior Arduino course as the prerequisite."
"I felt the prerequisite wasn't quite enough preparation for some of the specific challenges."

Activities

Be better prepared before your course. Deepen your understanding during and after it. Supplement your coursework and achieve mastery of the topics covered in Arduino IoT Environment Monitor Project with these activities:
Review Arduino Fundamentals
Reinforce your understanding of basic Arduino concepts and syntax before starting the project.
Browse courses on Arduino
Show steps
  • Review basic Arduino syntax and data types.
  • Practice writing simple sketches to control LEDs and read sensor values.
  • Familiarize yourself with common Arduino libraries.
Brush up on Basic Electronics
Review fundamental electronics concepts to better understand the circuit design aspects of the project.
Browse courses on Resistors
Show steps
  • Review Ohm's Law and voltage dividers.
  • Understand how to read resistor color codes.
  • Learn about different types of sensors and their characteristics.
Read 'Arduino Cookbook'
Supplement your learning with a comprehensive guide to Arduino programming and hardware interfacing.
Show steps
  • Read the chapters related to sensors, LCDs, and WiFi modules.
  • Experiment with the code examples provided in the book.
  • Use the book as a reference when troubleshooting your project.
Four other activities
Expand to see all activities and additional details
Show all seven activities
Follow Blynk Tutorials
Deepen your understanding of the Blynk platform by following online tutorials and examples.
Browse courses on Blynk
Show steps
  • Explore the official Blynk documentation and tutorials.
  • Find and follow tutorials on creating custom dashboards.
  • Experiment with different Blynk widgets and features.
Read 'Internet of Things with Arduino Cookbook'
Expand your knowledge of IoT concepts and techniques with a dedicated cookbook.
Show steps
  • Read the chapters related to WiFi communication and cloud platforms.
  • Experiment with the code examples provided in the book.
  • Adapt the examples to your environment monitor project.
Expand the Environment Monitor
Extend the functionality of the environment monitor by adding more sensors or features.
Browse courses on Sensors
Show steps
  • Add additional sensors, such as a rain sensor or air quality sensor.
  • Implement data logging to track environmental conditions over time.
  • Integrate with other IoT platforms, such as IFTTT.
Design a Custom Enclosure
Create a professional-looking enclosure for your environment monitor project.
Browse courses on CAD
Show steps
  • Learn how to use a CAD software like Fusion 360 or Tinkercad.
  • Design an enclosure that houses all the components of your project.
  • 3D print or fabricate your enclosure.

Career center

Learners who complete Arduino IoT Environment Monitor Project will develop knowledge and skills that may be useful to these careers:
Internet of Things Developer
An Internet of Things Developer focuses on creating and maintaining the software and network infrastructure for connected devices. This position requires a deep knowledge of sensors, device communication, and data handling. This course will help the aspiring IoT developer learn to integrate various sensors with a microcontroller and connect it to the internet. The course also leads students through setting up a web and mobile dashboard, key elements for IoT applications. Successfully completing this course will show a mastery of essential skills, like using wifi modules, that are fundamental in this career. Someone who wishes to become an Internet of Things Developer, should take this course, because it will teach them to build functional IoT devices from the ground up.
Embedded Systems Engineer
An Embedded Systems Engineer designs, develops, and tests the software and hardware for systems embedded within devices. This role requires a strong understanding of microcontrollers, sensors, and communication protocols, all of which are core components of the Arduino IoT project. This course helps engineers build a foundation in using hardware components like sensors and wifi modules, while also working within the Arduino's limited resources, directly relevant to embedded systems work. The hands-on experience in creating a functional IoT device, including a web and mobile dashboard, directly translates to real-world projects. A student interested in becoming an Embedded Systems Engineer should take this course, as it combines practical hardware and software skills with IoT implementation.
Hardware Engineer
A Hardware Engineer designs, develops, and tests physical components of electronic and computer systems. This role includes working with sensors, microcontrollers, and communication modules. This course provides hands-on experience with these elements, which are used to create a functional IoT device. The course's practical approach in learning to assemble peripherals will help the hardware engineer understand how to integrate various hardware components into a functional system. A student who wishes to become a Hardware Engineer should take this course as it introduces practical experience in the integration of electronic components and circuit design.
Firmware Engineer
A Firmware Engineer develops the low-level software that controls hardware devices within an embedded system. This role requires a deep understanding of microcontroller architecture and hardware interaction, which are essential concepts covered in this course. This project focuses on writing software to make use of sensors and other peripherals connected to an Arduino. The experience of working with the limited resources of an Arduino and integrating a wifi module helps build a foundation to tackle the challenges of embedded systems. A student who intends to be a Firmware Engineer may find this course to be helpful because it introduces the basics of embedded software development.
Electrical Engineer
An Electrical Engineer designs, develops, and tests electrical components and systems. This includes working with circuits, sensors, and communication modules. This course offers hands-on experience with integrating these elements to create a functional IoT device. The course specifically helps engineers understand how to wire up various hardware components and how to create PCB layouts using KiCad. A student who intends to be an Electrical Engineer may find this course useful as it provides practical experience with circuit design and hardware integration.
Sensor Applications Engineer
A Sensor Applications Engineer works with sensors, helping to integrate them in various systems, and also testing to make sure they function correctly. This includes understanding the principles of sensor operation and how to interpret the data they collect. In this course, students learn how to use specific sensors like DHT11 and photoresistors, as well as how to calculate an appropriate fixed resistor for the photoresistor, an example of the kind of problem a sensor application engineer might encounter. The work of creating a dashboard to visualize sensor data is also a key element of the work this professional does. A student considering a position as a Sensor Applications Engineer may find this course useful, as it provides foundational knowledge about working with sensors and data.
Robotics Engineer
A Robotics Engineer designs, builds, and tests robots and robotic systems, which frequently make use of embedded systems and connected devices. The course's detailed instruction in integrating sensors, actuators, and communication modules is highly relevant to this role. Robotics engineers need to understand how to work with hardware such as those in this course, like the DHT11 and photoresistor sensors or the ESP01S Wifi module. Learning how to create a custom PCB layout in KiCad helps build a foundation in creating robust robotic systems. This course may be useful to students exploring a career in robotics as it provides a hands-on project where they learn to integrate hardware and software.
Control Systems Engineer
A Control Systems Engineer designs and implements systems that control processes or machines. This role requires an understanding of sensors, feedback loops, and real-time systems. The course focuses on integrating sensor data and using it to control outputs, which is directly relevant to this field. Designing a web and mobile dashboard is important for a control systems engineer, who will need to monitor and adjust system parameters. This course may be useful to a student interested in becoming a Control Systems Engineer, as it provides practical experience with sensor integration and control system design.
Automation Engineer
An Automation Engineer designs and develops automated systems within industrial or commercial processes. This role requires a solid foundation in sensor technology and control systems, which are touched upon in this course. The course's focus on integrating various sensors and creating a functional control loop is directly relevant to this role. Furthermore, the experience designing a custom PCB addresses the need for robust and reliable systems in automation. An Automation Engineer may find this course useful due to the focus on sensors, control systems, and hardware integration.
System Integration Specialist
A System Integration Specialist focuses on ensuring different components work together seamlessly within a larger system. This role requires a broad understanding of various systems, as well as strong problem-solving and troubleshooting skills. In this course, the student will learn how to integrate disparate hardware components including sensors, LCD displays, and WiFi modules, and then integrate them into a cohesive system. The student additionally practices the software side of integration by writing sketches that use these peripherals. A candidate interested in becoming a System Integration Specialist may find value in this course thanks to the focus on combining different hardware and software elements into a cohesive functioning system.
Technology Consultant
A Technology Consultant provides expert advice to organizations on how to use technology to meet their business goals. This role requires a broad understanding of technical concepts and the ability to communicate them effectively to others. The course may help a student build a practical understanding of building IoT systems in their own work. The student will gain a general understanding of how to use hardware and software components to build a connected device. A student wishing to become a Technology Consultant, may find this course helpful for the practical exposure to creating a working IoT system from the ground up.
Research and Development Engineer
A Research and Development Engineer researches, designs, and develops new technologies and products. The ability to combine hardware and software elements to prototype new systems is crucial to this role. This course may help build a foundation in practical projects by giving the student a hands-on learning experience in creating an IoT device. The course gives the student the opportunity to implement a system using various sensors, WiFi modules, and a microcontroller. A student considering a position as a Research and Development Engineer may find this course useful, as the student learns how to build and prototype a basic system.
Project Manager
A Project Manager oversees the planning and execution of projects. This requires a general understanding of the technologies involved and the ability to manage resources and timelines. This course may help build a project manager's general understanding of IoT systems. The student will have firsthand experience with planning, and implementing a working project, from the initial planning stages to the completion of a project. By experiencing this project, a student who intends to become a Project Manager may find that the practical experience gives them a better understanding of project organization and development.
Technical Writer
A Technical Writer creates documentation for technical products and systems. For this position, a practical experience with the technologies involved is important, so they can explain them clearly and accurately. While this course teaches hands-on skills rather than writing, the experience of working with sensors, microcontrollers, and communication modules may help the technical writer understand the products they write about. A student who wishes to become a Technical Writer may find this course useful as it provides a foundational experience with the technologies they may write about.
Technical Sales Representative
A Technical Sales Representative sells complex technical products or services to clients. They need to have a good grasp of the technology as well as the ability to communicate its value to potential customers. This course may help a Technical Sales Representative develop a practical understanding of how IoT devices are built and how they work. The practical experience in integrating sensors, microcontrollers, and communication modules may be useful in explaining the technical aspects of a product to a potential client. A student who intends to become a Technical Sales Representative may find that this course gives them experience with technical products.

Reading list

We've selected two books that we think will supplement your learning. Use these to develop background knowledge, enrich your coursework, and gain a deeper understanding of the topics covered in Arduino IoT Environment Monitor Project.
Provides a comprehensive guide to using the Arduino platform. It covers a wide range of topics, including basic electronics, programming, and interfacing with various sensors and actuators. It serves as a valuable reference for troubleshooting and expanding your knowledge beyond the course material. This book is commonly used by hobbyists and professionals alike.
Provides practical recipes for building IoT projects with Arduino. It covers various topics, including connecting to the internet, working with different communication protocols, and using cloud platforms. It great resource for expanding your knowledge of IoT and building more complex projects. This book is particularly helpful for understanding the software side of IoT projects.

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